A high output with low input can occur due to factors like leverage, efficiency, or nonlinear responses in a system. For instance, in financial terms, leveraging borrowed capital can amplify returns, resulting in high output from minimal initial investment. Similarly, in biological systems, a small amount of a catalyst can significantly accelerate a reaction, leading to a disproportionately high output. Nonlinear systems can also exhibit this behavior, where small changes in input lead to large changes in output due to feedback loops or threshold effects.
An inverter has a high output when the input is low, and a low output when the input is high.
If you have a high input going into the inverter it will have a low output and if you have a low input going into the inverter it will have a high output, the bottom line is it's output is the opposite of the input.
no. input impedance is low & output impedance is high
A 2-input NOR (Negative OR) Gate produces a low output when either input (or both) are high.
Output impedance in an op-amp is not high - it is low - input impendance is high, and this is because the input stage transistors have high gain.
It will give high output when the given input is low and also give LOW output when the given input is high (Vice versa).
High gain high input impedance low output impedance
Data. Usually represented by different electrical characteristics like high/low, on/off. Data coming in is referred to as INPUT, data going out is OUTPUT.
That depends on the output impedance. In electronic we use voltage bridging, that is a relative low output impedance to a higher input impedance. Usualy the input impedance is more than ten times higher then the output impedance. An input impedance is called also a load impedance or an external impedance. An output impedance is called also a source impedance or an internal impedance.
A LOW-ACTIVE gate input means that the gate's output is activated or enabled when the input signal is at a low voltage level (typically near 0 volts). In digital logic circuits, this characteristic is often seen in components like NAND and NOR gates. For example, a LOW-ACTIVE NAND gate will produce a high output unless all its inputs are low, while a LOW-ACTIVE NOR gate will produce a high output only when all its inputs are low. This behavior is essential for designing logic circuits that respond to specific input conditions.
It's a "quad, 2 input nor gate". To understand the significance of a "nor" gate, you need to understand a little about digital logic. An "or" gate takes 2 or more digital inputs and if either is "on", the output will be on. (asserted high). A "nor" gate inverts the output of the "or" gate, meaning that when either of the outputs are "on", the output will be "off" (asserted low). The two input part of the description just indicates that it only accepts two inputs. So, simply stated: If either (or both) input(s) of a quad, 2 input nor gate is (are) asserted high, the output will be low. If both inputs are off (low), the output will be high.
Output = NOT { [ not-A and not-B and not-C ] or [ A and B and C ] } My Boolean is rusty, but I suspect that this may be equivalent to Output = (A) x-or (B) x-or (C)